The Experts below are selected from a list of 50751 Experts worldwide ranked by ideXlab platform
Tiegang Zhao - One of the best experts on this subject based on the ideXlab platform.
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Medium Access Control game with an enhanced physical link layer interface
International Symposium on Information Theory, 2014Co-Authors: Yanru Tang, Tiegang ZhaoAbstract:We consider distributed Medium Access Control in a wireless network where each link layer user (transmitter) is equipped with multiple transmission options as opposed to the classical binary options of transmitting/idling. In each time slot, a user randomly chooses a transmission option according to a “transmission probability vector”. Packets sent by the users are either received or lost depending on whether reliable decoding is supported by the communication channel. We propose a game theoretic model for distributed Medium Access Control where each user adapts its transmission probability vector to maximize a utility function. Condition under which the Medium Access Control game has a unique Nash equilibrium is obtained. Simulation results show that, when multiple transmission options are provided, users in a distributed network tend to converge to channel sharing schemes that are consistent with the well-known information theoretic understandings.
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ISIT - Medium Access Control game with an enhanced physical-link layer interface
2014 IEEE International Symposium on Information Theory, 2014Co-Authors: Yanru Tang, Tiegang Zhao, Jie LuoAbstract:We consider distributed Medium Access Control in a wireless network where each link layer user (transmitter) is equipped with multiple transmission options as opposed to the classical binary options of transmitting/idling. In each time slot, a user randomly chooses a transmission option according to a “transmission probability vector”. Packets sent by the users are either received or lost depending on whether reliable decoding is supported by the communication channel. We propose a game theoretic model for distributed Medium Access Control where each user adapts its transmission probability vector to maximize a utility function. Condition under which the Medium Access Control game has a unique Nash equilibrium is obtained. Simulation results show that, when multiple transmission options are provided, users in a distributed network tend to converge to channel sharing schemes that are consistent with the well-known information theoretic understandings.
Yanru Tang - One of the best experts on this subject based on the ideXlab platform.
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Medium Access Control game with an enhanced physical link layer interface
International Symposium on Information Theory, 2014Co-Authors: Yanru Tang, Tiegang ZhaoAbstract:We consider distributed Medium Access Control in a wireless network where each link layer user (transmitter) is equipped with multiple transmission options as opposed to the classical binary options of transmitting/idling. In each time slot, a user randomly chooses a transmission option according to a “transmission probability vector”. Packets sent by the users are either received or lost depending on whether reliable decoding is supported by the communication channel. We propose a game theoretic model for distributed Medium Access Control where each user adapts its transmission probability vector to maximize a utility function. Condition under which the Medium Access Control game has a unique Nash equilibrium is obtained. Simulation results show that, when multiple transmission options are provided, users in a distributed network tend to converge to channel sharing schemes that are consistent with the well-known information theoretic understandings.
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ISIT - Medium Access Control game with an enhanced physical-link layer interface
2014 IEEE International Symposium on Information Theory, 2014Co-Authors: Yanru Tang, Tiegang Zhao, Jie LuoAbstract:We consider distributed Medium Access Control in a wireless network where each link layer user (transmitter) is equipped with multiple transmission options as opposed to the classical binary options of transmitting/idling. In each time slot, a user randomly chooses a transmission option according to a “transmission probability vector”. Packets sent by the users are either received or lost depending on whether reliable decoding is supported by the communication channel. We propose a game theoretic model for distributed Medium Access Control where each user adapts its transmission probability vector to maximize a utility function. Condition under which the Medium Access Control game has a unique Nash equilibrium is obtained. Simulation results show that, when multiple transmission options are provided, users in a distributed network tend to converge to channel sharing schemes that are consistent with the well-known information theoretic understandings.
Kyoon Ha Lee - One of the best experts on this subject based on the ideXlab platform.
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Medium Access Control protocol using state changeable directional antennas in Ad-hoc networks
Lecture Notes in Computer Science, 2003Co-Authors: Jeong Min Lee, Yeonghwan Tscha, Kyoon Ha LeeAbstract:Recently environment of wireless communication is improved very fast. But in a field of Ad hoc, improvement is not so fast as characteristic of in-frastructureless. Even in the Medium Access Control protocol area of Ad hoc network, it is hard to solve traditional problems, hidden terminal and expose node problems. In this paper, we propose new Medium Access Control proto-col for solving these problems using state changeable and directional multi an-tennas.
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ICOIN - Medium Access Control protocol using state changeable directional antennas in Ad-hoc networks
Information Networking, 2003Co-Authors: Jeong Min Lee, Yeonghwan Tscha, Kyoon Ha LeeAbstract:Recently environment of wireless communication is improved very fast. But in a field of Ad hoc, improvement is not so fast as characteristic of in-frastructureless. Even in the Medium Access Control protocol area of Ad hoc network, it is hard to solve traditional problems, hidden terminal and expose node problems. In this paper, we propose new Medium Access Control proto-col for solving these problems using state changeable and directional multi an-tennas.
Jin-young Choi - One of the best experts on this subject based on the ideXlab platform.
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A Medium Access Control scheme for providing reliability in wireless Ad Hoc networks
Lecture Notes in Computer Science, 2006Co-Authors: Song-hee Lee, Jin-young ChoiAbstract:We propose a Medium Access Control (MAC) protocol called MMPR that supports reliable Medium Access Control in wireless ad hoc networks. MMPR protocol focuses on interaction between a MAC and upper layers, whereby the MAC layer indirectly influences selection of the most reliable next forwarding node set by considering link channel states. The MMPR protocol reduces the number of contention phases and Control frames using transmission power Control techniques, considerably reducing the time required for broadcasting. In addition, our protocol increases throughput under channel fading and interference using a modified CSMA/CA scheme. Our simulation shows that MMPR is substantially more reliable and it provides high throughput in ad hoc network models compared to 802.11 broadcast and BMMM*.
Jun Cai - One of the best experts on this subject based on the ideXlab platform.
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Medium Access Control in ultra wideband wireless networks
IEEE Transactions on Vehicular Technology, 2005Co-Authors: Xuemin Shen, Weihua Zhuang, Hai Jiang, Jun CaiAbstract:Ultra-wideband (UWB) transmission is an emerging wireless communication technology with unique potential merits such as high-rate, low-transmission power, immunity to multipath propagation, and capability in precise positioning. It has received significant interests for future wireless communications from both academia and industry. In UWB wireless networks, Medium Access Control (MAC) is essential to coordinate the channel Access among competing devices. The unique UWB characteristics not only pose significant challenges but also offer great opportunities in efficient UWB MAC design. This paper presents a comprehensive overview of UWB MAC development on four important aspects: multiple Access, overhead reduction, resource allocation, and quality of service (QoS) provisioning, and identifies some future research issues.
